Abstract: Bit inversions occurring in memory systems and apparatus are provided. Data is acquired from a source destined for a target. As the data is acquired from the source, the set bits associated with data are tabulated. If the total number of set bits exceeds more than half of the total bits, then an inversion flag is set. When the data is transferred to the target, the bits are inverted during the transfer if the inversion flag is set. Alternatively, an acquired data stream includes an association with an inversion bit. The inversion bit is acquired and stored separately from the data stream. As the data stream is transferred, if the inversion bit is set then the stream is inverted during the transfer of the stream to a target.

Abstract: Split data error correction code (ECC) circuits including a control circuit coupled to an error correction code (ECC) circuit. The ECC circuit is adapted to generate at least one ECC code from user data of a first physical sector during a data access. The split data ECC circuit is adapted to write the at least one ECC code to a second physical sector if the data access is a write access and to compare the at least one generated ECC code with at least one ECC code stored in a second physical sector if the data access is a read access.

Abstract: Bit inversions occurring in memory systems and apparatus are provided. Data is acquired from a source destined for a target. As the data is acquired from the source, the set bits associated with data are tabulated. If the total number of set bits exceeds more than half of the total bits, then an inversion flag is set. When the data is transferred to the target, the bits are inverted during the transfer if the inversion flag is set. Alternatively, an acquired data stream includes an association with an inversion bit. The inversion bit is acquired and stored separately from the data stream. As the data stream is transferred, if the inversion bit is set then the stream is inverted during the transfer of the stream to a target.

Abstract: Split data error correction code (ECC) circuits including a control circuit coupled to an error correction code (ECC) circuit. The ECC circuit is adapted to generate at least one ECC code from user data of a first physical sector during a data access. The split data ECC circuit is adapted to write the at least one ECC code to a second physical sector if the data access is a write access and to compare the at least one generated ECC code with at least one ECC code stored in a second physical sector if the data access is a read access.

Abstract: Bit inversions occurring in memory systems and apparatus are provided. Data is acquired from a source destined for a target. As the data is acquired from the source, the set bits associated with data are tabulated. If the total number of set bits exceeds more than half of the total bits, then an inversion flag is set. When the data is transferred to the target, the bits are inverted during the transfer if the inversion flag is set. Alternatively, an acquired data stream includes an association with an inversion bit. The inversion bit is acquired and stored separately from the data stream. As the data stream is transferred, if the inversion bit is set then the stream is inverted during the transfer of the stream to a target.

Abstract: A Flash memory device, system, and data handling routine is detailed with a distributed erase block sector user/overhead data scheme that splits the user data and overhead data and stores them in differing associated erase blocks. The erase blocks of the Flash memory are arranged into associated erase block pairs in “super blocks” such that when user data is written to/read from the user data area of a sector of an erase block of the super block pair, the overhead data is written to/read from the overhead data area of a sector of the other associated erase block. This data splitting enhances fault tolerance and reliability of the Flash memory device.

Abstract: Bit inversions occurring in memory systems and apparatus are provided. Data is acquired from a source destined for a target. As the data is acquired from the source, the set bits associated with data are tabulated. If the total number of set bits exceeds more than half of the total bits, then an inversion flag is set. When the data is transferred to the target, the bits are inverted during the transfer if the inversion flag is set. Alternatively, an acquired data stream includes an association with an inversion bit. The inversion bit is acquired and stored separately from the data stream. As the data stream is transferred, if the inversion bit is set then the stream is inverted during the transfer of the stream to a target.

Abstract: Bit inversions occurring in memory systems and apparatus are provided. Data is acquired from a source destined for a target. As the data is acquired from the source, the set bits associated with data are tabulated. If the total number of set bits exceeds more than half of the total bits, then an inversion flag is set. When the data is transferred to the target, the bits are inverted during the transfer if the inversion flag is set. Alternatively, an acquired data stream includes an association with an inversion bit. The inversion bit is acquired and stored separately from the data stream. As the data stream is transferred, if the inversion bit is set then the stream is inverted during the transfer of the stream to a target.

Abstract: A Flash memory device, system, and data handling routine is detailed with a distributed erase block sector user/overhead data scheme that splits the user data and overhead data and stores them in differing associated erase blocks. The erase blocks of the Flash memory are arranged into associated erase block pairs in “super blocks” such that when user data is written to/read from the user data area of a sector of an erase block of the super block pair, the overhead data is written to/read from the overhead data area of a sector of the other associated erase block. This data splitting enhances fault tolerance and reliability of the Flash memory device.

Abstract: A Flash memory device, system, and data handling routine is detailed with a distributed erase block sector user/overhead data scheme that splits the user data and overhead data and stores them in differing associated erase blocks. The erase blocks of the Flash memory are arranged into associated erase block pairs in “super blocks” such that when user data is written to/read from the user data area of a sector of an erase block of the super block pair, the overhead data is written to/read from the overhead data area of a sector of the other associated erase block. This data splitting enhances fault tolerance and reliability of the Flash memory device.

Abstract: A Flash memory device, system, and data handling routine is detailed with a distributed erase block sector user/overhead data scheme that splits the user data and overhead data and stores them in differing associated erase blocks. The erase blocks of the Flash memory are arranged into associated erase block pairs in “super blocks” such that when user data is written to/read from the user data area of a sector of an erase block of the super block pair, the overhead data is written to/read from the overhead data area of a sector of the other associated erase block. This data splitting enhances fault tolerance and reliability of the Flash memory device.

Abstract: Bit inversions occurring in memory systems and apparatus are provided. Data is acquired from a source destined for a target. As the data is acquired from the source, the set bits associated with data are tabulated. If the total number of set bits exceeds more than half of the total bits, then an inversion flag is set. When the data is transferred to the target, the bits are inverted during the transfer if the inversion flag is set.

Abstract: A Flash memory device, system, and data handling routine is detailed with a distributed erase block sector user/overhead data scheme that splits the user data and overhead data and stores them in differing associated erase blocks. The erase blocks of the Flash memory are arranged into associated erase block pairs in “super blocks” such that when user data is written to/read from the user data area of a sector of an erase block of the super block pair, the overhead data is written to/read from the overhead data area of a sector of the other associated erase block. This data splitting enhances fault tolerance and reliability of the Flash memory device.

Abstract: A Flash memory device, system, and data handling routine is detailed with a distributed erase block sector user/overhead data scheme that splits the user data and overhead data and stores them in differing associated erase blocks. The erase blocks of the Flash memory are arranged into associated erase block pairs in “super blocks” such that when user data is written to/read from the user data area of a sector of an erase block of the super block pair, the overhead data is written to/read from the overhead data area of a sector of the other associated erase block. This data splitting enhances fault tolerance and reliability of the Flash memory device.

Abstract: A Flash memory device, system, and data handling routine is detailed with a distributed erase block sector user/overhead data scheme that splits the user data and overhead data and stores them in differing associated erase blocks. The erase blocks of the Flash memory are arranged into associated erase block pairs in “super blocks” such that when user data is written to/read from the user data area of a sector of an erase block of the super block pair, the overhead data is written to/read from the overhead data area of a sector of the other associated erase block. This data splitting enhances fault tolerance and reliability of the Flash memory device.

Abstract: Bit inversions occurring in memory systems and apparatus are provided. Data is acquired from a source destined for a target. As the data is acquired from the source, the set bits associated with data are tabulated. If the total number of set bits exceeds more than half of the total bits, then an inversion flag is set. When the data is transferred to the target, the bits are inverted during the transfer if the inversion flag is set. Alternatively, an acquired data stream includes an association with an inversion bit. The inversion bit is acquired and stored separately from the data stream. As the data stream is transferred, if the inversion bit is set then the stream is inverted during the transfer of the stream to a target.

Abstract: A Flash memory device, system, and data handling routine is detailed with a distributed erase block sector user/overhead data scheme that splits the user data and overhead data and stores them in differing associated erase blocks. The erase blocks of the Flash memory are arranged into associated erase block pairs in “super blocks” such that when user data is written to/read from the user data area of a sector of an erase block of the super block pair, the overhead data is written to/read from the overhead data area of a sector of the other associated erase block. This data splitting enhances fault tolerance and reliability of the Flash memory device.

Abstract: A Flash memory device, system, and data handling routine is detailed with a distributed erase block sector user/overhead data scheme that splits the user data and overhead data and stores them in differing associated erase blocks. The erase blocks of the Flash memory are arranged into associated erase block pairs in “super blocks” such that when user data is written to/read from the user data area of a sector of an erase block of the super block pair, the overhead data is written to/read from the overhead data area of a sector of the other associated erase block. This data splitting enhances fault tolerance and reliability of the Flash memory device.

Abstract: A Flash memory device, system, and data handling routine is detailed with a distributed erase block sector user/overhead data scheme that splits the user data and overhead data and stores them in differing associated erase blocks. The erase blocks of the Flash memory are arranged into associated erase block pairs in “super blocks” such that when user data is written to/read from the user data area of a sector of an erase block of the super block pair, the overhead data is written to/read from the overhead data area of a sector of the other associated erase block. This data splitting enhances fault tolerance and reliability of the Flash memory device.

Abstract: A Flash memory device, system, and data handling routine is detailed with a distributed erase block sector user/overhead data scheme that splits the user data and overhead data and stores them in differing associated erase blocks. The erase blocks of the Flash memory are arranged into associated erase block pairs in “super blocks” such that when user data is written to/read from the user data area of a sector of an erase block of the super block pair, the overhead data is written to/read from the overhead data area of a sector of the other associated erase block. This data splitting enhances fault tolerance and reliability of the Flash memory device.